Thermodynamic Behavior of a Perfect Fluid with Negative Energy Density
Walter Christensen Jr

TL;DR
This paper models spacetime as a harmonic oscillator and proposes a thermodynamic process for particle formation from vacuum energy, potentially explaining dark matter and cosmic background radiation.
Contribution
It introduces a novel spacetime oscillation model linking vacuum energy compression to particle creation, including axions, within a thermodynamic framework.
Findings
Spacetime behaves like a harmonic oscillator during vacuum energy compression.
Particles formed have relativistic mass-energy matching compressive work.
Photon frequency of particles is in the microwave range, related to spacetime oscillation frequency.
Abstract
Starting from a perfect cosmological fluid represented by the energy momentum tensor T_uv, one class of frequency metrics that satisfies both Einstein's general relativistic equation and the perfect fluid condition is: g_uv = e^iwt N_uv. Mathematically, such metrics indicate spacetime behaves locally like a simple harmonic oscillator. In the cosmological model presented here these small spacetime oscillations compress vacuum energy into a standing wave inside a dynamic Casimir cavity. At peak compression a phase shift occurs and the standing wave forms into a particle having relativistic mass-energy equal to the compressive work required to produce it. At this point the newly formed particle does isobaric work to expand the volume against the external pressure given T_ii. Equilibrium is achieved when the collision rate on the volume's internal and external surfaces equalizes. By…
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Taxonomy
TopicsAdvanced Thermodynamics and Statistical Mechanics · Cosmology and Gravitation Theories · Quantum, superfluid, helium dynamics
